Integration of a high sensitivity MEMS directional sound sensor with readout electronics

The miniaturization of a sound detection system is of great interest to applications such as sniper location. Current systems in use are larger and do not provide for the unencumbered movement of the warfighter. Inspiration for a smaller MEMS based sensor is therefore taken from the aural system of...

Full description

Bibliographic Details
Main Author: Roth, John D.
Other Authors: Karunasiri, Gamani
Published: Monterey, California. Naval Postgraduate School 2013
Online Access:http://hdl.handle.net/10945/27897
id ndltd-nps.edu-oai-calhoun.nps.edu-10945-27897
record_format oai_dc
spelling ndltd-nps.edu-oai-calhoun.nps.edu-10945-278972014-11-27T16:17:05Z Integration of a high sensitivity MEMS directional sound sensor with readout electronics Roth, John D. Karunasiri, Gamani Fouts, Douglas J. Electrical And Computer Engineering The miniaturization of a sound detection system is of great interest to applications such as sniper location. Current systems in use are larger and do not provide for the unencumbered movement of the warfighter. Inspiration for a smaller MEMS based sensor is therefore taken from the aural system of the fly Ormia ochracea. The focus of this thesis is the design of an integrated and miniaturized device utilizing commercial-off-the-shelf readout electronics with the biologically inspired sensor. An analysis of previously used techniques is presented along with a novel fully-integrated miniaturized design. Specific investigations include integration with external readout electronics, a hybrid discrete component design, and the fully-integrated single package design. Results include successful operation at all levels of integration and a more thorough analysis of the performance of the fully-integrated design. 2013-02-15T23:13:57Z 2013-02-15T23:13:57Z 2012-12 Thesis http://hdl.handle.net/10945/27897 Approved for public release; distribution is unlimited. Monterey, California. Naval Postgraduate School
collection NDLTD
sources NDLTD
description The miniaturization of a sound detection system is of great interest to applications such as sniper location. Current systems in use are larger and do not provide for the unencumbered movement of the warfighter. Inspiration for a smaller MEMS based sensor is therefore taken from the aural system of the fly Ormia ochracea. The focus of this thesis is the design of an integrated and miniaturized device utilizing commercial-off-the-shelf readout electronics with the biologically inspired sensor. An analysis of previously used techniques is presented along with a novel fully-integrated miniaturized design. Specific investigations include integration with external readout electronics, a hybrid discrete component design, and the fully-integrated single package design. Results include successful operation at all levels of integration and a more thorough analysis of the performance of the fully-integrated design.
author2 Karunasiri, Gamani
author_facet Karunasiri, Gamani
Roth, John D.
author Roth, John D.
spellingShingle Roth, John D.
Integration of a high sensitivity MEMS directional sound sensor with readout electronics
author_sort Roth, John D.
title Integration of a high sensitivity MEMS directional sound sensor with readout electronics
title_short Integration of a high sensitivity MEMS directional sound sensor with readout electronics
title_full Integration of a high sensitivity MEMS directional sound sensor with readout electronics
title_fullStr Integration of a high sensitivity MEMS directional sound sensor with readout electronics
title_full_unstemmed Integration of a high sensitivity MEMS directional sound sensor with readout electronics
title_sort integration of a high sensitivity mems directional sound sensor with readout electronics
publisher Monterey, California. Naval Postgraduate School
publishDate 2013
url http://hdl.handle.net/10945/27897
work_keys_str_mv AT rothjohnd integrationofahighsensitivitymemsdirectionalsoundsensorwithreadoutelectronics
_version_ 1716724909990739968